StutterNet: Stuttering Detection Using Time Delay Neural Network

Authors: Shakeel A. Sheikh, Md Sahidullah, Fabrice Hirsch, Slim Ouni

Accepted in EUSIPCO 2021: European Signal Processing Conference

Results of the summarizing process for the arXiv paper: 2105.05599v2

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StutterNet is a novel approach to detecting stuttering using deep learning techniques. Unlike most existing methods in this domain, which rely on automatic speech recognition (ASR) combined with language models for stuttering detection, StutterNet relies solely on the acoustic signal. The system uses a time-delay neural network (TDNN) that is capable of capturing contextual aspects of disfluent utterances. The proposed method achieves promising results and outperforms the state-of-the-art residual neural network based method when evaluated on the UCLASS stuttering dataset consisting of over 100 speakers. Additionally, the number of trainable parameters in StutterNet is substantially less due to the parameter sharing scheme of TDNN. This makes it an efficient and effective tool for detecting stuttering in real-world scenarios. Overall, StutterNet represents an important advancement in the field of stuttering detection through its innovative use of deep learning techniques and reliance solely on acoustic signals. It has significant potential for improving the accuracy and efficiency of stuttering detection in a wide range of applications.
AI-generated keywords: StutterNet Deep Learning TDNN UCLASS Disfluencies

AI-generated Key Points

  • StutterNet is a novel approach to detecting stuttering using deep learning techniques
  • It relies solely on the acoustic signal, unlike most existing methods that use automatic speech recognition (ASR) combined with language models for stuttering detection
  • The system uses a time-delay neural network (TDNN) that captures contextual aspects of disfluent utterances
  • StutterNet outperforms the state-of-the-art residual neural network based method when evaluated on the UCLASS stuttering dataset consisting of over 100 speakers
  • The number of trainable parameters in StutterNet is substantially less due to the parameter sharing scheme of TDNN, making it an efficient and effective tool for detecting stuttering in real-world scenarios
  • StutterNet represents an important advancement in the field of stuttering detection through its innovative use of deep learning techniques and reliance solely on acoustic signals
  • It has significant potential for improving the accuracy and efficiency of stuttering detection in a wide range of applications.
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Abstract: This paper introduces StutterNet, a novel deep learning based stuttering detection capable of detecting and identifying various types of disfluencies. Most of the existing work in this domain uses automatic speech recognition (ASR) combined with language models for stuttering detection. Compared to the existing work, which depends on the ASR module, our method relies solely on the acoustic signal. We use a time-delay neural network (TDNN) suitable for capturing contextual aspects of the disfluent utterances. We evaluate our system on the UCLASS stuttering dataset consisting of more than 100 speakers. Our method achieves promising results and outperforms the state-of-the-art residual neural network based method. The number of trainable parameters of the proposed method is also substantially less due to the parameter sharing scheme of TDNN.

Submitted to arXiv on 12 May. 2021

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